// To handle servers with customized mpq files, try to read Patch_D2.mpq using Stormlib
// (http://www.zezula.net/en/mpq/stormlib.html). We load the StormLib dll with LoadLibrary
// to avoid imposing any run- or compile-time dependencies on the user. If we can't load
// the dll or read the mpq, we will fall back on a hard-coded list of the standard items.
//
// We do all this in the injector and write the info to a temp file because of problems
// calling LoadLibrary in the injected dll.
// Update: Can now load the dll from BH.dll, so no need to write to external files anymore
bool ReadMPQFiles(std::string fileName) {
int successfulFileCount = 0, desiredFileCount = 0;
HMODULE dllHandle = LoadLibrary((BH::path + "StormLib.dll").c_str());
if (dllHandle) {
SFileOpenArchive = (MPQOpenArchive)GetProcAddress(dllHandle, "SFileOpenArchive");
SFileCloseArchive = (MPQCloseArchive)GetProcAddress(dllHandle, "SFileCloseArchive");
SFileOpenFileEx = (MPQOpenFile)GetProcAddress(dllHandle, "SFileOpenFileEx");
SFileGetFileSize = (MPQGetSize)GetProcAddress(dllHandle, "SFileGetFileSize");
SFileReadFile = (MPQReadFile)GetProcAddress(dllHandle, "SFileReadFile");
SFileCloseFile = (MPQCloseFile)GetProcAddress(dllHandle, "SFileCloseFile");
HANDLE pMutex = CreateMutex(NULL, true, "Global\\BH_PATCH_D2_MPQ_MUTEX");
WaitForSingleObject(
pMutex, // handle to mutex
INFINITE); // no time-out interval
if (SFileOpenArchive && SFileCloseArchive && SFileOpenFileEx && SFileCloseFile && SFileGetFileSize && SFileReadFile) {
// Copy the MPQ file to avoid sharing access violations
std::string copyFileName(fileName);
size_t start_pos = copyFileName.find("Patch_D2.mpq");
if (start_pos != std::string::npos) {
copyFileName.replace(start_pos, 12, "Patch_D2.copy.mpq");
}
std::ifstream src(fileName.c_str(), std::ios::binary);
std::ofstream dst(copyFileName.c_str(), std::ios::binary);
dst << src.rdbuf();
dst.close();
src.close();
MPQArchive archive(copyFileName.c_str());
const int NUM_MPQS = 13;
std::string mpqFiles[NUM_MPQS] = {
"UniqueItems",
"Armor",
"Weapons",
"Misc",
"ItemTypes",
"ItemStatCost",
"Inventory",
"Properties",
"Runes",
"SetItems",
"skills",
"MagicPrefix",
"MagicSuffix"
};
if (archive.error == ERROR_SUCCESS) {
for (int i = 0; i < NUM_MPQS; i++){
std::string path = "data\\global\\excel\\" + mpqFiles[i] + ".txt";
MPQFile mpqFile(&archive, path.c_str()); desiredFileCount++;
if (mpqFile.error == ERROR_SUCCESS) {
successfulFileCount++;
std::string key = mpqFiles[i];
std::transform(key.begin(), key.end(), key.begin(), ::tolower);
MpqDataMap[key] = new MPQData(&mpqFile);
}
}
}
}
FreeLibrary(dllHandle);
ReleaseMutex(pMutex);
CloseHandle(pMutex);
}
return true;
}
CRhinoCommand::result CCommandSampleImportMeshes::RunCommand( const CRhinoCommandContext& context )
{
CWnd* pMainWnd = CWnd::FromHandle(RhinoApp().MainWnd());
if (0 == pMainWnd)
return CRhinoCommand::failure;
CRhinoGetFileDialog gf;
gf.SetScriptMode(context.IsInteractive() ? FALSE : TRUE);
BOOL rc = gf.DisplayFileDialog(CRhinoGetFileDialog::open_rhino_only_dialog, 0, pMainWnd);
if (!rc)
return CRhinoCommand::cancel;
ON_wString filename = gf.FileName();
filename.TrimLeftAndRight();
if (filename.IsEmpty())
return CRhinoCommand::nothing;
if (!CRhinoFileUtilities::FileExists(filename))
{
RhinoApp().Print(L"File not found\n");
return CRhinoCommand::failure;
}
FILE* archive_fp = ON::OpenFile(filename, L"rb");
if (0 == archive_fp)
{
RhinoApp().Print(L"Unable to open file\n");
return CRhinoCommand::failure;
}
ON_BinaryFile archive(ON::read3dm, archive_fp);
ONX_Model model;
rc = model.Read(archive) ? TRUE : FALSE;
ON::CloseFile( archive_fp );
if (!rc)
{
RhinoApp().Print(L"Error reading file\n");
return CRhinoCommand::failure;
}
int num_imported = 0;
for (int i = 0; i < model.m_object_table.Count(); i++)
{
const ONX_Model_Object& model_object = model.m_object_table[i];
const ON_Mesh* mesh = ON_Mesh::Cast(model_object.m_object);
if (0 != mesh)
{
// CRhinoDoc::AddMeshObject makes a copy of the input mesh
context.m_doc.AddMeshObject(*mesh);
num_imported++;
}
}
if (0 == num_imported)
RhinoApp().Print(L"No meshes imported\n");
else if (1 == num_imported)
RhinoApp().Print(L"1 mesh imported\n");
else
RhinoApp().Print(L"%d meshes imported\n", num_imported);
context.m_doc.Redraw();
return CRhinoCommand::success;
}
bool Save_Cereal(
const SfM_Data & data,
const std::string & filename,
ESfM_Data flags_part)
{
// List which part of the file must be considered
const bool b_views = (flags_part & VIEWS) == VIEWS;
const bool b_intrinsics = (flags_part & INTRINSICS) == INTRINSICS;
const bool b_extrinsics = (flags_part & EXTRINSICS) == EXTRINSICS;
const bool b_structure = (flags_part & STRUCTURE) == STRUCTURE;
const bool b_control_point = (flags_part & CONTROL_POINTS) == CONTROL_POINTS;
//Create the stream and check it is ok
std::ofstream stream(filename.c_str(), std::ios::binary | std::ios::out);
if (!stream.is_open())
return false;
// Data serialization
{
archiveType archive(stream);
// since OpenMVG 0.9, the sfm_data version 0.2 is introduced
// - it adds control_points storage
const std::string version = "0.2";
archive(cereal::make_nvp("sfm_data_version", version));
archive(cereal::make_nvp("root_path", data.s_root_path));
if (b_views)
archive(cereal::make_nvp("views", data.views));
else
archive(cereal::make_nvp("views", Views()));
if (b_intrinsics)
archive(cereal::make_nvp("intrinsics", data.intrinsics));
else
archive(cereal::make_nvp("intrinsics", Intrinsics()));
if (b_extrinsics)
archive(cereal::make_nvp("extrinsics", data.poses));
else
archive(cereal::make_nvp("extrinsics", Poses()));
// Structure -> See for export in another file
if (b_structure)
archive(cereal::make_nvp("structure", data.structure));
else
archive(cereal::make_nvp("structure", Landmarks()));
if (version != "0.1") // fast check to assert we are at least using version 0.2
{
if (b_control_point)
archive(cereal::make_nvp("control_points", data.control_points));
else
archive(cereal::make_nvp("control_points", Landmarks()));
}
}
return true;
}
bool Load_Cereal(
SfM_Data & data,
const std::string & filename,
ESfM_Data flags_part)
{
const bool bBinary = stlplus::extension_part(filename) == "bin";
// List which part of the file must be considered
const bool b_views = (flags_part & VIEWS) == VIEWS;
const bool b_intrinsics = (flags_part & INTRINSICS) == INTRINSICS;
const bool b_extrinsics = (flags_part & EXTRINSICS) == EXTRINSICS;
const bool b_structure = (flags_part & STRUCTURE) == STRUCTURE;
const bool b_control_point = (flags_part & CONTROL_POINTS) == CONTROL_POINTS;
//Create the stream and check it is ok
std::ifstream stream(filename.c_str(), std::ios::binary | std::ios::in);
if (!stream.is_open())
return false;
// Data serialization
try
{
archiveType archive(stream);
std::string version;
archive(cereal::make_nvp("sfm_data_version", version));
archive(cereal::make_nvp("root_path", data.s_root_path));
if (b_views)
archive(cereal::make_nvp("views", data.views));
else
if (bBinary) { // Binary file require read all the member
Views views;
archive(cereal::make_nvp("views", views));
}
if (b_intrinsics)
archive(cereal::make_nvp("intrinsics", data.intrinsics));
else
if (bBinary) { // Binary file require read all the member
Intrinsics intrinsics;
archive(cereal::make_nvp("intrinsics", intrinsics));
}
if (b_extrinsics)
archive(cereal::make_nvp("extrinsics", data.poses));
else
if (bBinary) { // Binary file require read all the member
Poses poses;
archive(cereal::make_nvp("extrinsics", poses));
}
if (b_structure)
archive(cereal::make_nvp("structure", data.structure));
else
if (bBinary) { // Binary file require read all the member
Landmarks structure;
archive(cereal::make_nvp("structure", structure));
}
if (version != "0.1") // fast check to assert we are at least using version 0.2
{
if (b_control_point)
archive(cereal::make_nvp("control_points", data.control_points));
else
if (bBinary) { // Binary file require read all the member
Landmarks control_points;
archive(cereal::make_nvp("control_points", control_points));
}
}
}
catch (const cereal::Exception & e)
{
std::cerr << e.what() << std::endl;
return false;
}
return true;
}
void read()
{
Abc::IArchive archive(Alembic::AbcCoreOgawa::ReadArchive(),
"HasAMaterial.abc");
Abc::IObject an_object(archive.getTop(), "an_object");
if (const Abc::PropertyHeader * header =
an_object.getProperties().getPropertyHeader(".byanyothername"))
{
TESTING_ASSERT(Mat::OMaterialSchema::matches(*header));
if (Mat::OMaterialSchema::matches(*header))
{
std::cout << ".byanyothername yes.\n";
Mat::IMaterialSchema mat(an_object.getProperties(), ".byanyothername");
printMaterialSchema(mat);
}
else
{
std::cout << ".byanyothername no.\n";
}
}
if (const Abc::PropertyHeader * header =
an_object.getProperties().getPropertyHeader("butnotbythisone"))
{
TESTING_ASSERT( !Mat::OMaterialSchema::matches(*header) );
if (Mat::OMaterialSchema::matches(*header))
{
std::cout << "butnotbythisone yes.\n";
}
else
{
std::cout << "butnotbythisone no.\n";
}
}
if (const Abc::PropertyHeader * header =
an_object.getProperties().getPropertyHeader(".material"))
{
TESTING_ASSERT(!Mat::OMaterialSchema::matches(*header));
if (Mat::OMaterialSchema::matches(*header))
{
std::cout << "manually built .material yes.\n";
}
else
{
std::cout << "manually built .material no.\n";
}
}
std::cout << "-----------\n";
Abc::IObject anotherObj(archive.getTop(), "another_object");
std::string assignmentPath;
if (Mat::getMaterialAssignmentPath(anotherObj, assignmentPath))
{
std::cout << "another_object assignment path: " << assignmentPath;
std::cout << std::endl;
}
TESTING_ASSERT(assignmentPath == "/some/material");
Mat::IMaterialSchema hasMat;
TESTING_ASSERT(Mat::hasMaterial(anotherObj, hasMat));
if (Mat::hasMaterial(anotherObj, hasMat))
{
std::cout << "another_object has local material: " << std::endl;
printMaterialSchema(hasMat);
}
}
void decode_message(parcelport& pp,
parcelset::shmem::data_buffer parcel_data,
performance_counters::parcels::data_point receive_data)
{
// protect from un-handled exceptions bubbling up
try {
try {
// mark start of serialization
util::high_resolution_timer timer;
boost::int64_t overall_add_parcel_time = 0;
{
// De-serialize the parcel data
data_buffer::data_buffer_type const& buffer =
parcel_data.get_buffer();
util::portable_binary_iarchive archive(
buffer, buffer.size(), boost::archive::no_header);
std::size_t parcel_count = 0;
archive >> parcel_count;
for(std::size_t i = 0; i < parcel_count; ++i)
{
// de-serialize parcel and add it to incoming parcel queue
parcel p;
archive >> p;
// make sure this parcel ended up on the right locality
BOOST_ASSERT(p.get_destination_locality() == pp.here());
// be sure not to measure add_parcel as serialization time
boost::int64_t add_parcel_time = timer.elapsed_nanoseconds();
pp.add_received_parcel(p);
overall_add_parcel_time += timer.elapsed_nanoseconds() -
add_parcel_time;
}
// complete received data with parcel count
receive_data.num_parcels_ = parcel_count;
receive_data.raw_bytes_ = archive.bytes_read(); // amount of uncompressed data
}
// store the time required for serialization
receive_data.serialization_time_ = timer.elapsed_nanoseconds() -
overall_add_parcel_time;
pp.add_received_data(receive_data);
}
catch (hpx::exception const& e) {
LPT_(error)
<< "decode_message: caught hpx::exception: "
<< e.what();
hpx::report_error(boost::current_exception());
}
catch (boost::system::system_error const& e) {
LPT_(error)
<< "decode_message: caught boost::system::error: "
<< e.what();
hpx::report_error(boost::current_exception());
}
catch (boost::exception const&) {
LPT_(error)
<< "decode_message: caught boost::exception.";
hpx::report_error(boost::current_exception());
}
catch (std::exception const& e) {
// We have to repackage all exceptions thrown by the
// serialization library as otherwise we will loose the
// e.what() description of the problem, due to slicing.
boost::throw_exception(boost::enable_error_info(
hpx::exception(serialization_error, e.what())));
}
}
catch (...) {
LPT_(error)
<< "decode_message: caught unknown exception.";
hpx::report_error(boost::current_exception());
}
}
int vgcreate(struct cmd_context *cmd, int argc, char **argv)
{
size_t max_lv, max_pv;
uint32_t extent_size;
char *vg_name;
struct volume_group *vg;
const char *tag;
alloc_policy_t alloc;
int clustered;
if (!argc) {
log_error("Please provide volume group name and "
"physical volumes");
return EINVALID_CMD_LINE;
}
if (argc == 1) {
log_error("Please enter physical volume name(s)");
return EINVALID_CMD_LINE;
}
vg_name = skip_dev_dir(cmd, argv[0], NULL);
max_lv = arg_uint_value(cmd, maxlogicalvolumes_ARG, 0);
max_pv = arg_uint_value(cmd, maxphysicalvolumes_ARG, 0);
alloc = arg_uint_value(cmd, alloc_ARG, ALLOC_NORMAL);
if (alloc == ALLOC_INHERIT) {
log_error("Volume Group allocation policy cannot inherit "
"from anything");
return EINVALID_CMD_LINE;
}
if (!(cmd->fmt->features & FMT_UNLIMITED_VOLS)) {
if (!max_lv)
max_lv = 255;
if (!max_pv)
max_pv = 255;
if (max_lv > 255 || max_pv > 255) {
log_error("Number of volumes may not exceed 255");
return EINVALID_CMD_LINE;
}
}
if (arg_sign_value(cmd, physicalextentsize_ARG, 0) == SIGN_MINUS) {
log_error("Physical extent size may not be negative");
return EINVALID_CMD_LINE;
}
if (arg_sign_value(cmd, maxlogicalvolumes_ARG, 0) == SIGN_MINUS) {
log_error("Max Logical Volumes may not be negative");
return EINVALID_CMD_LINE;
}
if (arg_sign_value(cmd, maxphysicalvolumes_ARG, 0) == SIGN_MINUS) {
log_error("Max Physical Volumes may not be negative");
return EINVALID_CMD_LINE;
}
/* Units of 512-byte sectors */
extent_size =
arg_uint_value(cmd, physicalextentsize_ARG, DEFAULT_EXTENT) * 2;
if (!extent_size) {
log_error("Physical extent size may not be zero");
return EINVALID_CMD_LINE;
}
if (!validate_vg_name(cmd, vg_name)) {
log_error("New volume group name \"%s\" is invalid", vg_name);
return ECMD_FAILED;
}
/* Create the new VG */
if (!(vg = vg_create(cmd, vg_name, extent_size, max_pv, max_lv, alloc,
argc - 1, argv + 1)))
return ECMD_FAILED;
if (max_lv != vg->max_lv)
log_warn("WARNING: Setting maxlogicalvolumes to %d "
"(0 means unlimited)", vg->max_lv);
if (max_pv != vg->max_pv)
log_warn("WARNING: Setting maxphysicalvolumes to %d "
"(0 means unlimited)", vg->max_pv);
if (arg_count(cmd, addtag_ARG)) {
if (!(tag = arg_str_value(cmd, addtag_ARG, NULL))) {
log_error("Failed to get tag");
return ECMD_FAILED;
}
if (!(vg->fid->fmt->features & FMT_TAGS)) {
log_error("Volume group format does not support tags");
return ECMD_FAILED;
}
if (!str_list_add(cmd->mem, &vg->tags, tag)) {
log_error("Failed to add tag %s to volume group %s",
tag, vg_name);
return ECMD_FAILED;
}
}
if (arg_count(cmd, clustered_ARG))
clustered = !strcmp(arg_str_value(cmd, clustered_ARG, "n"), "y");
else
/* Default depends on current locking type */
clustered = locking_is_clustered();
if (clustered)
vg->status |= CLUSTERED;
else
vg->status &= ~CLUSTERED;
if (!lock_vol(cmd, ORPHAN, LCK_VG_WRITE)) {
log_error("Can't get lock for orphan PVs");
return ECMD_FAILED;
}
if (!lock_vol(cmd, vg_name, LCK_VG_WRITE | LCK_NONBLOCK)) {
log_error("Can't get lock for %s", vg_name);
unlock_vg(cmd, ORPHAN);
return ECMD_FAILED;
}
if (!archive(vg)) {
unlock_vg(cmd, vg_name);
unlock_vg(cmd, ORPHAN);
return ECMD_FAILED;
}
/* Store VG on disk(s) */
if (!vg_write(vg) || !vg_commit(vg)) {
unlock_vg(cmd, vg_name);
unlock_vg(cmd, ORPHAN);
return ECMD_FAILED;
}
unlock_vg(cmd, vg_name);
unlock_vg(cmd, ORPHAN);
backup(vg);
log_print("Volume group \"%s\" successfully created", vg->name);
return ECMD_PROCESSED;
}
int
main(int argc, char **argv)
{
char *tmpdir;
size_t tdlen;
/*
* Keep a reference to cwd, so we can always come back home.
*/
cwdfd = open(".", O_RDONLY | O_CLOEXEC);
if (cwdfd < 0) {
syswarn(1, errno, "Can't open current working directory.");
return(exit_val);
}
/*
* Where should we put temporary files?
*/
if ((tmpdir = getenv("TMPDIR")) == NULL || *tmpdir == '\0')
tmpdir = _PATH_TMP;
tdlen = strlen(tmpdir);
while (tdlen > 0 && tmpdir[tdlen - 1] == '/')
tdlen--;
tempfile = malloc(tdlen + 1 + sizeof(_TFILE_BASE));
if (tempfile == NULL) {
paxwarn(1, "Cannot allocate memory for temp file name.");
return(exit_val);
}
if (tdlen)
memcpy(tempfile, tmpdir, tdlen);
tempbase = tempfile + tdlen;
*tempbase++ = '/';
/*
* parse options, determine operational mode, general init
*/
options(argc, argv);
if ((gen_init() < 0) || (tty_init() < 0))
return(exit_val);
/*
* select a primary operation mode
*/
switch (act) {
case EXTRACT:
extract();
break;
case ARCHIVE:
archive();
break;
case APPND:
if (gzip_program != NULL)
errx(1, "can not gzip while appending");
append();
break;
case COPY:
copy();
break;
default:
case LIST:
list();
break;
}
return(exit_val);
}
int gfxRhino3D::load3dm(QString inputFile){
int i, j;
ON_TextLog dump_to_stdout;
ON_TextLog* dump = &dump_to_stdout;
bool ok;
FILE *infile;
char line[4096];
int cld=0, pnt=0, crv=0, srf=0, brp=0, msh=0;
ON_PointCloud *cloud;
ON_Point *point;
ON_Curve *curve;
ON_Surface *surface;
ON_Brep *brep;
ON_Mesh *mesh;
// If type is 3dm, handle with OpenNURBS Toolkit...
// dump->Print("\nOpenNURBS Archive File: %s\n", inputFile.toAscii().data());
// open file containing opennurbs archive
infile = ON::OpenFile( inputFile.toAscii().data(), "rb");
if ( !infile ) return 2;
// create achive object from file pointer
ON_BinaryFile archive( ON::read3dm, infile );
// read the contents of the file into "model"
bool rc = model.Read( archive, dump );
// close the file
ON::CloseFile( infile );
// if (rc) printf("Read file sucessfully\n");
// if (model.IsValid(dump)) printf("Model is Valid\n");
// Here we attempt to cast objects and report the results...
for (i=0;i<model.m_object_table.Count();i++){
cloud = (ON_PointCloud*)ON_PointCloud::Cast(model.m_object_table[i].m_object);
if (cloud) cld++;
point = (ON_Point*)ON_Point::Cast(model.m_object_table[i].m_object);
if (point) pnt++;
curve = (ON_Curve*)ON_Curve::Cast(model.m_object_table[i].m_object);
if (curve) crv++;
surface = (ON_Surface*)ON_Surface::Cast(model.m_object_table[i].m_object);
if (surface) srf++;
brep = (ON_Brep*)ON_Brep::Cast(model.m_object_table[i].m_object);
if (brep) brp++;
mesh = (ON_Mesh*)ON_Mesh::Cast(model.m_object_table[i].m_object);
if (mesh) msh++;
}
/*
printf("Model Contains:\n");
printf(" %i Layers\n",model.m_layer_table.Count());
printf(" %i Meshes\n",msh);
printf(" %i Breps\n",brp);
printf(" %i Surfaces\n",srf);
printf(" %i Curves\n",crv);
printf(" %i Points\n",pnt);
printf(" %i Point Clouds\n",cld);
printf("The following Layers are visible and will be meshed:\n");
for (i=0;i<model.m_layer_table.Count();i++){
if (model.m_layer_table[i].IsVisible()) printf(" %s\n",convertONstring(model.m_layer_table[i].LayerName()).toAscii().data());
}
*/
}
int vgextend(struct cmd_context *cmd, int argc, char **argv)
{
char *vg_name;
struct volume_group *vg = NULL;
int r = ECMD_FAILED;
struct pvcreate_params pp;
if (!argc) {
log_error("Please enter volume group name and "
"physical volume(s)");
return EINVALID_CMD_LINE;
}
vg_name = skip_dev_dir(cmd, argv[0], NULL);
argc--;
argv++;
if (arg_count(cmd, metadatacopies_ARG)) {
log_error("Invalid option --metadatacopies, "
"use --pvmetadatacopies instead.");
return EINVALID_CMD_LINE;
}
pvcreate_params_set_defaults(&pp);
if (!pvcreate_params_validate(cmd, argc, argv, &pp)) {
return EINVALID_CMD_LINE;
}
log_verbose("Checking for volume group \"%s\"", vg_name);
vg = vg_read_for_update(cmd, vg_name, NULL, 0);
if (vg_read_error(vg)) {
vg_release(vg);
stack;
return ECMD_FAILED;
}
if (!lock_vol(cmd, VG_ORPHANS, LCK_VG_WRITE)) {
log_error("Can't get lock for orphan PVs");
unlock_and_release_vg(cmd, vg, vg_name);
return ECMD_FAILED;
}
if (!archive(vg))
goto_bad;
/* extend vg */
if (!vg_extend(vg, argc, argv, &pp))
goto_bad;
/* ret > 0 */
log_verbose("Volume group \"%s\" will be extended by %d new "
"physical volumes", vg_name, argc);
/* store vg on disk(s) */
if (!vg_write(vg) || !vg_commit(vg))
goto_bad;
backup(vg);
log_print("Volume group \"%s\" successfully extended", vg_name);
r = ECMD_PROCESSED;
bad:
unlock_vg(cmd, VG_ORPHANS);
unlock_and_release_vg(cmd, vg, vg_name);
return r;
}
void saveToFile(const Mesh& mesh, const std::wstring& fileName)
{
std::ofstream fs(fileName, std::ios::binary);
boost::archive::binary_oarchive archive(fs);
archive << mesh;
}
static void
generateTests(InstructionData *data)
{
std::vector<size_t> indexCur, indexMax;
std::vector<bool> flagSet;
hwtest::TestFile testFile;
auto complete = false;
auto completeIndices = false;
for (auto i = 0; i < data->read.size(); ++i) {
auto &field = data->read[i];
indexCur.push_back(0);
switch (field) {
case Field::rA:
case Field::rB:
case Field::rS:
indexMax.push_back(gValuesGPR.size());
break;
case Field::frA:
case Field::frB:
case Field::frC:
case Field::frS:
indexMax.push_back(gValuesFPR.size());
break;
case Field::crbA:
case Field::crbB:
indexMax.push_back(gValuesCRB.size());
break;
case Field::simm:
indexMax.push_back(gValuesSIMM.size());
break;
case Field::sh:
indexMax.push_back(gValuesSH.size());
break;
case Field::mb:
indexMax.push_back(gValuesMB.size());
break;
case Field::me:
indexMax.push_back(gValuesME.size());
break;
case Field::uimm:
indexMax.push_back(gValuesUIMM.size());
break;
case Field::XERC:
indexMax.push_back(gValuesXERC.size());
break;
case Field::XERSO:
indexMax.push_back(gValuesXERSO.size());
break;
default:
assert(false);
}
}
for (auto i = 0; i < data->flags.size(); ++i) {
flagSet.push_back(false);
}
while (!complete) {
uint32_t gpr = 0, fpr = 0, crf = 0, crb = 0;
hwtest::TestData test;
memset(&test, 0, sizeof(hwtest::TestData));
test.instr = gInstructionTable.encode(data->id);
for (auto i = 0; i < data->read.size(); ++i) {
auto index = indexCur[i];
// Generate read field values
switch (data->read[i]) {
case Field::rA:
test.instr.rA = gpr + hwtest::GPR_BASE;
test.input.gpr[gpr++] = gValuesGPR[index];
break;
case Field::rB:
test.instr.rB = gpr + hwtest::GPR_BASE;
test.input.gpr[gpr++] = gValuesGPR[index];
break;
case Field::rS:
test.instr.rS = gpr + hwtest::GPR_BASE;
test.input.gpr[gpr++] = gValuesGPR[index];
break;
case Field::frA:
test.instr.frA = fpr + hwtest::FPR_BASE;
test.input.fr[fpr++] = gValuesFPR[index];
break;
case Field::frB:
test.instr.frB = fpr + hwtest::FPR_BASE;
test.input.fr[fpr++] = gValuesFPR[index];
break;
case Field::frC:
test.instr.frC = fpr + hwtest::FPR_BASE;
test.input.fr[fpr++] = gValuesFPR[index];
break;
case Field::frS:
test.instr.frS = fpr + hwtest::FPR_BASE;
test.input.fr[fpr++] = gValuesFPR[index];
break;
case Field::crbA:
test.instr.crbA = (crb++) + hwtest::CRB_BASE;
setCRB(test.input, test.instr.crbA, gValuesCRB[index]);
break;
case Field::crbB:
test.instr.crbB = (crb++) + hwtest::CRB_BASE;
setCRB(test.input, test.instr.crbB, gValuesCRB[index]);
break;
case Field::simm:
test.instr.simm = gValuesSIMM[index];
break;
case Field::sh:
test.instr.sh = gValuesSH[index];
break;
case Field::mb:
test.instr.mb = gValuesMB[index];
break;
case Field::me:
test.instr.me = gValuesME[index];
break;
case Field::uimm:
test.instr.uimm = gValuesUIMM[index];
break;
case Field::XERC:
test.input.xer.ca = gValuesXERC[index];
break;
case Field::XERSO:
test.input.xer.so = gValuesXERSO[index];
break;
default:
assert(false);
}
}
// Generate write field values
for (auto field : data->write) {
switch (field) {
case Field::rA:
test.instr.rA = gpr + hwtest::GPR_BASE;
gpr++;
break;
case Field::rD:
test.instr.rD = gpr + hwtest::GPR_BASE;
gpr++;
break;
case Field::frD:
test.instr.frD = fpr + hwtest::FPR_BASE;
fpr++;
break;
case Field::crfD:
test.instr.crfD = crf + hwtest::CRF_BASE;
crf++;
break;
case Field::crbD:
test.instr.crbD = crb + hwtest::CRB_BASE;
crb++;
break;
case Field::XERC:
case Field::XERSO:
case Field::FCRISI:
case Field::FCRZDZ:
case Field::FCRIDI:
case Field::FCRSNAN:
break;
default:
assert(false);
}
}
testFile.tests.emplace_back(test);
// Increase indices
for (auto i = 0; i < indexCur.size(); ++i) {
indexCur[i]++;
if (indexCur[i] < indexMax[i]) {
break;
} else if (indexCur[i] == indexMax[i]) {
indexCur[i] = 0;
if (i == indexCur.size() - 1) {
completeIndices = true;
}
}
}
if (completeIndices) {
if (flagSet.size() == 0) {
complete = true;
break;
}
completeIndices = false;
// Do next flag!
for (auto i = 0; i < flagSet.size(); ++i) {
if (!flagSet[i]) {
flagSet[i] = true;
break;
} else {
flagSet[i] = false;
if (i == flagSet.size() - 1) {
complete = true;
break;
}
}
}
}
}
// Save tests to file
auto filename = std::string("tests/cpu/input/") + data->name;
std::ofstream out { filename, std::ofstream::out | std::ofstream::binary };
cereal::BinaryOutputArchive archive(out);
archive(testFile);
}
void decode_message(
std::vector<char/*, allocator<char>*/ > const & parcel_data,
boost::uint64_t inbound_data_size,
parcelport& pp,
performance_counters::parcels::data_point& receive_data
)
{
unsigned archive_flags = boost::archive::no_header;
if (!pp.allow_array_optimizations())
archive_flags |= util::disable_array_optimization;
archive_flags |= util::disable_data_chunking;
// protect from un-handled exceptions bubbling up
try {
try {
// mark start of serialization
util::high_resolution_timer timer;
boost::int64_t overall_add_parcel_time = 0;
// De-serialize the parcel data
util::portable_binary_iarchive archive(parcel_data,
inbound_data_size, archive_flags);
std::size_t parcel_count = 0;
archive >> parcel_count; //-V128
BOOST_ASSERT(parcel_count > 0);
for(std::size_t i = 0; i != parcel_count; ++i)
{
// de-serialize parcel and add it to incoming parcel queue
parcel p;
archive >> p;
// make sure this parcel ended up on the right locality
BOOST_ASSERT(p.get_destination_locality().get_rank() == pp.here().get_rank());
// be sure not to measure add_parcel as serialization time
boost::int64_t add_parcel_time = timer.elapsed_nanoseconds();
pp.add_received_parcel(p);
overall_add_parcel_time += timer.elapsed_nanoseconds() -
add_parcel_time;
}
// complete received data with parcel count
receive_data.num_parcels_ = parcel_count;
receive_data.raw_bytes_ = archive.bytes_read();
// store the time required for serialization
receive_data.serialization_time_ = timer.elapsed_nanoseconds() -
overall_add_parcel_time;
pp.add_received_data(receive_data);
}
catch (hpx::exception const& e) {
LPT_(error)
<< "decode_message(mpi): caught hpx::exception: "
<< e.what();
hpx::report_error(boost::current_exception());
}
catch (boost::system::system_error const& e) {
LPT_(error)
<< "decode_message(mpi): caught boost::system::error: "
<< e.what();
hpx::report_error(boost::current_exception());
}
catch (boost::exception const&) {
LPT_(error)
<< "decode_message(mpi): caught boost::exception.";
hpx::report_error(boost::current_exception());
}
catch (std::exception const& e) {
// We have to repackage all exceptions thrown by the
// serialization library as otherwise we will loose the
// e.what() description of the problem, due to slicing.
boost::throw_exception(boost::enable_error_info(
hpx::exception(serialization_error, e.what())));
}
}
catch (...) {
LPT_(error)
<< "decode_message(mpi): caught unknown exception.";
hpx::report_error(boost::current_exception());
}
}
int main()
{
std::cout << "[moeoQuadTreeArchive]\t=>\t";
moeoQuadTree<ObjectiveVector> tree;
bool empty= tree.isEmpty();
std::cout <<"empty? " << empty << std::endl;
ObjectiveVector obj1;
obj1[0]=10.0;
obj1[1]=10.0;
obj1[2]=10.0;
ObjectiveVector obj2;
obj2[0]=9.0;
obj2[1]=9.0;
obj2[2]=9.0;
ObjectiveVector obj3;
obj3[0]=2.0;
obj3[1]=11.0;
obj3[2]=11.0;
ObjectiveVector obj4;
obj4[0]=1.0;
obj4[1]=10.0;
obj4[2]=10.0;
ObjectiveVector obj5;
obj5[0]=2.0;
obj5[1]=2.0;
obj5[2]=2.0;
ObjectiveVector obj6;
obj6[0]=26.0;
obj6[1]=0.0;
obj6[2]=5.0;
ObjectiveVector obj7;
obj7[0]=56.0;
obj7[1]=22.0;
obj7[2]=0.0;
ObjectiveVector obj8;
obj8[0]=87.0;
obj8[1]=42.0;
obj8[2]=62.0;
ObjectiveVector obj9;
obj9[0]=90.0;
obj9[1]=69.0;
obj9[2]=83.0;
ObjectiveVector obj10;
obj10[0]=68.0;
obj10[1]=89.0;
obj10[2]=22.0;
// QuadTreeNode<ObjectiveVector> hop(obj1);
// QuadTreeNode<ObjectiveVector> hop2(obj2);
// QuadTreeNode<ObjectiveVector> hop3(obj3);
// QuadTreeNode<ObjectiveVector> hop4(obj4);
// empty = hop.getSubTree().empty();
// std::cout <<"empty? " << empty << std::endl;
// std::vector< QuadTreeNode<ObjectiveVector> > nodes;
// nodes.push_back(hop);
// nodes.push_back(hop2);
// nodes.push_back(hop3);
// std::cout << nodes[1].getVec() << std::endl;
// std::cout << "size: " << nodes.size() << std::endl;
// tree.insert(obj1);
// tree.insert(obj2);
// tree.insert(obj3);
// tree.insert(obj4);
// tree.insert(obj5);
std::cout << "\n\n\n";
// tree.insert(obj6);
// tree.insert(obj7);
// tree.insert(obj8);
// tree.insert(obj9);
// tree.insert(obj10);
moeoUnboundedArchive<Solution> archive(false);
eoPop<Solution> pop;
pop.resize(1000);
int tmp;
for(int i= 0; i<1000 ; i++){
ObjectiveVector obj;
obj[0]=floor(rng.uniform()*100);
obj[1]=floor(rng.uniform()*100);
obj[2]=floor(rng.uniform()*100);
std::cout << obj << std::endl;
pop[i].objectiveVector(obj);
tree.insert(obj);
archive(pop[i]);
tree.printTree();
std::cout << std::endl;
std::cout << std::endl;
std::cout << "archive: " << archive << std::endl;
// std::cin >> tmp;
}
// QuadTreeNode<ObjectiveVector> * a = tree.getRoot();
// QuadTreeNode<ObjectiveVector> * b = a->getSubTree()[1];
// QuadTreeNode<ObjectiveVector> * c = b->getSubTree()[2];
//
// tree.reinsert(a,c);
// std::cout << "achive: " << archive << std::endl;
tree.printTree();
std::cout << "OK" << std::endl;
return EXIT_SUCCESS;
}
void test_parcel_serialization(hpx::parcelset::parcel outp,
int in_archive_flags, int out_archive_flags, bool zero_copy)
{
// serialize data
std::size_t arg_size = hpx::traits::get_type_size(outp);
std::vector<char> out_buffer;
std::vector<hpx::util::serialization_chunk> out_chunks;
out_buffer.resize(arg_size + HPX_PARCEL_SERIALIZATION_OVERHEAD);
{
// create an output archive and serialize the parcel
hpx::util::portable_binary_oarchive archive(
out_buffer, zero_copy ? &out_chunks : 0, 0, out_archive_flags);
archive << outp;
arg_size = archive.bytes_written();
}
out_buffer.resize(arg_size);
// deserialize data
hpx::parcelset::parcel inp;
{
// create an input archive and deserialize the parcel
hpx::util::portable_binary_iarchive archive(
out_buffer, &out_chunks, arg_size, in_archive_flags);
archive >> inp;
}
// make sure the parcel has been deserialized properly
HPX_TEST_EQ(outp.get_parcel_id(), inp.get_parcel_id());
HPX_TEST_EQ(outp.get_source(), inp.get_source());
HPX_TEST_EQ(outp.get_destination_locality(), inp.get_destination_locality());
HPX_TEST_EQ(outp.get_start_time(), inp.get_start_time());
hpx::actions::action_type outact = outp.get_action();
hpx::actions::action_type inact = inp.get_action();
HPX_TEST_EQ(outact->get_component_type(), inact->get_component_type());
HPX_TEST_EQ(outact->get_action_name(), inact->get_action_name());
HPX_TEST_EQ(outact->get_action_type(), inact->get_action_type());
HPX_TEST_EQ(outact->get_parent_locality_id(), inact->get_parent_locality_id());
HPX_TEST_EQ(outact->get_parent_thread_id(), inact->get_parent_thread_id());
HPX_TEST_EQ(outact->get_parent_thread_phase(), inact->get_parent_thread_phase());
HPX_TEST_EQ(outact->get_thread_priority(), inact->get_thread_priority());
HPX_TEST_EQ(outact->get_thread_stacksize(), inact->get_thread_stacksize());
HPX_TEST_EQ(outact->get_parent_thread_phase(), inact->get_parent_thread_phase());
hpx::actions::continuation_type outcont = outp.get_continuation();
hpx::actions::continuation_type incont = inp.get_continuation();
HPX_TEST_EQ(outcont->get_continuation_name(), incont->get_continuation_name());
HPX_TEST_EQ(outcont->get_gid(), incont->get_gid());
//// invoke action encapsulated in inp
//naming::address const* inaddrs = pin.get_destination_addrs();
//hpx::threads::thread_init_data data;
//inact->get_thread_init_data(inaddrs[0].address_, data);
//data.func(hpx::threads::wait_signaled);
}